ECEN 2632 02: Basic Circuit Theory 1

ECEN 2632 - Basic Circuit Theory 1

Fall 2026 Syllabus, Section 02, CRN 40729,

Credit hours: 3

Course Meeting Times

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Instructor

Vamsi Borra

Public Instructor Information

Ph.D., Electrical Engineering, The University of Toledo, 2017
Master’s, Electrical and Computer Engineering, Youngstown State University, 2014
Bachelor’s, Electronics and Communication Engineering, Jawaharlal Nehru Technological University, 2011

Assistant Professor and Program Coordinator

Email: vsborra@ysu.edu

Office location: Moser Hall 2030

Private Instructor Information

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Course Description

2632. Basic Circuit Theory 1. Basic principles of linear circuits. Circuits concepts and laws, methods of analysis, network theorems. Source-resistor circuits. Inductors and capacitors. Analysis of AC circuits using phasors; impedance and admittance. Power calculations in DC and AC circuits. Prereq. or Coreq.: ECEN 2611 and MATH 1572 or MATH 1572H. 3 s.h.

Course Readings

Group Title Author ISBN
Required Fundamentals of Electric Circuits Alexander and Sadiku 9781260226409 (print version); 8220130704308 (online access)

The course readings are subject to change in the event of extenuating circumstances, research developments, current events, and/or to ensure better learning.  

Additional Course Materials

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Course Learning Outcomes/Objectives/Goals

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How to Succeed in This Course

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Attendance Expectations

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Late Work Submission Policy

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Additional Course Expectations

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Artificial Intelligence Policy Statement

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Assignments/Assessments

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Grading and Grading Scale

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University Policies

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Schedule of Topics and Assignments

Week of Reading(s) Proposed Topic Due/To Prepare for Class
8/24 Chapter 1 Charge, voltage, current; active and passive power; energy
8/31 Chapter 2 Kirchhoff's laws: KVL and KCL
9/7 Chapter 2 Ohm's law; series and parallel resistive circuits
9/14 Chapter 3 Node voltage method
9/21 Chapter 3 Mesh current method
9/28 Chapter 4 Superposition; Thevenin's theorem
10/5 Chapter 4 Norton's theorem
10/12 Chapter 4 Source transformations; maximum power transfer
10/19 Appendix B, Chapter 9 Complex numbers; phasor representation of AC voltages and currents
10/26 Chapters 6 and 9 Capacitance and inductance; complex impedance
11/2 Chapters 9 and 10 Steady-state AC circuit analysis using phasors
11/9 Chapter 11 Complex power and power factor correction
11/16 Chapters 9, 10, 11 Steady-state AC circuit examples
11/23 Chapter 6 RLC circuits in DC steady state
11/30 Review chapters 1-4, 6, 9-11 Review
12/7 Final exam week

The course schedule, policies, procedures, and assignments in this course are subject to change in the event of extenuating circumstances, by mutual agreement, and/or to ensure better learning.